A tag assignment system, comprising a processing circuitry and being communicatively connected to a data repository comprising records, each of which (i) being associated with a respective distinct animal of a plurality of animals, and (ii) including a Unique Animal Identifier (UAI) associated with the respective distinct animal; the processing circuitry is configured to: substantially simultaneously: (i) obtain an ID reading of an animal identification tag attached to a given animal of the animals from a first tag reading device, wherein the ID reading including the UAI uniquely identifying the given animal, and (ii) obtain a tag reading of a second tag attached to the given animal from a second tag reading device, the tag reading including tag identification information uniquely identifying the second tag; and cause update of the data repository to assign the tag identification information to a given record of the records associated with the UAI.
VACCINATION IDENTIFICATION BUTTON FOR ELECTRONIC IDENTIFICATION BUTTON TAGS TO IDENTIFY CATTLE AS BEING INOCULATED AGAINST BRUCELLOSIS, AND KITS AND METHODS RELATED THERETO
Systems and methods for companion animal health monitoring are described. In one embodiment, an animal health monitoring system including an electronic assembly located on a companion animal including a microprocessor, a power source connected to the microprocessor, and a transceiver and a microchip implanted in the companion animal and including memory storing identification data and a temperature sensor measuring the temperature of the companion animal, wherein the electronic assembly interrogates the microchip to obtain identification data and temperature data and transmits the identification data and the temperature data.
Systems and methods for animal health monitoring are described. In one embodiment, an animal health monitoring system includes a ruminant bolus transponder, a high frequency radio frequency transceiver device, and at least one base station including a high frequency radio frequency transceiver, wherein the high frequency radio frequency transceiver device is proximally located to the bolus transponder, wherein the ruminant bolus periodically emerges from a low power dormant state and measures data including at least one sensor measurement including time and date data, wherein the ruminant bolus is configured to store the measured data using the memory connected to the microcontroller in the ruminant bolus, wherein the ruminant bolus periodically emerges from a low power dormant state and transmits the stored data in the memory to the proximally located device via high frequency RF transmission, and wherein the ruminant bolus can be spontaneously activated by a low frequency scanner.
In an inductively coupled radio frequency identification (RFID) system deployed in animal and livestock applications, reading system efficacy can be compromised by animal movement on, around, or near metal structures prone to producing sonic frequencies. Such is the case, for example, when a walk-by antenna is mounted at the entry door of a livestock transport trailer, and animals transit on a metallic ramp and metallic trailer floor. Associated with the observable acoustic noise are subtle disturbances in the magnetic field surrounding the antenna due to vibrating metal altering the reluctance of the antenna's magnetic field. This acoustic noise manifests itself as an electrical noise phenomenon that interferes with the signals of certain types of identification tags which rely on amplitude modulation. The detrimental effects of acoustic noise from metal structures can be mitigated by using a multi-loop antenna that limits the spatial distribution of the transmitted magnetic field and cancels close by magnetic field disturbances.
H01Q 7/00 - Loop antennas with a substantially uniform current distribution around the loop and having a directional radiation pattern in a plane perpendicular to the plane of the loop
Low noise mixers for use in RFID readers and RFID readers configured to receive data from ISO HDX transponders in accordance with embodiments of the invention are illustrated. One embodiment of the invention receives the HDX FSK signal using a resonant antenna, upwardly mixes the FSK signal to an intermediate frequency, filters the intermediate frequency FSK signal using at least one ceramic bandpass filter, and demodulates the filtered intermediate frequency FSK signal to produce a binary output.
A resonant antenna circuit for a radio frequency identification (RFID) reader generates an electrical signal for activating a passive identification tag. The identification tag in turn generates a coded electrical signal that is detected by the reader. The electrical characteristics of the resonant circuit are actively and dynamically altered so that the antenna performs more optimally during the transmit and receive intervals.
Transponders are disclosed that are configurable to operate In an HDX mode and/or an FDX-B mode and that use a switchable load impedance across the transponders' resonant antenna circuit to induce amplitude and/or frequency modulation. An RF level detection circuit determines when the instantaneous activation signal strength is sufficient to support monoplex, multiplex, and diplex operation. A non-volatile memory stores identification data coded in HDX and FDX-B formats. One embodiment of the invention includes an inductive antenna including two terminals connected to tag circuitry, where the inductive antenna forms a resonant antenna circuit tuned to resonate at the frequency of the activation signal.
H04Q 5/22 - Selecting arrangements wherein two or more subscriber stations are connected by the same line to the exchange with indirect connection, i.e. through subordinate switching centre the subordinate centre not permitting interconnection of subscribers connected thereto
9.
SURFACE MOUNT CAPACITOR USED AS A SUBSTRATE FLIP-CHIP CARRIER IN A RADIO FREQUENCY IDENTIFICATION TAG
In a passive radio frequency identification (RFID) transponder comprising an integrated circuit, an antenna coil, and at least one surface mount capacitor, a configuration is disclosed in which the surface mount capacitor is used as the integrated circuit carrier. The integrated circuit comprises a bumped die flip-chip, and the surface mount capacitor substrate has electrically conductive contacts and connections for electrically joining the antenna coil, capacitor, and integrated circuit. Transponders in accordance with embodiments of the invention do not include an intermediate substrate carrier onto which the capacitor and integrated circuit are mounted and interconnected, and to which the antenna coil is subsequently attached.
Systems and methods are described for adapting a portable RFID reader to create a portable RFID reader assembly that includes an extension antenna. In many embodiments, the extension antenna can be added to increase the reach of the portable RFID reader. The extension antenna is inductively coupled to the portable RFID reader and in many embodiments, the extension antenna is retrofit to an existing portable RFID reader. In other embodiments, a portable RFID reader and one or more extension antennas are produced as part of a set. One embodiment of the invention includes a reader having reader circuitry configured to generate an activation signal, a first antenna, where the first antenna is electrically connected to the reader circuitry, a reader housing containing the reader circuitry, an extension antenna including an elongated housing, a second antenna located at one end of the housing, and a third antenna.
Systems and methods are described for reading EID tags in difficult to reach locations using a portable RFID reader. In many embodiments, the system includes a portable RFID reader and one or more stationary antenna assemblies. The stationary antenna assemblies typically include a loop antenna in a first location and a ferrite antenna in a second location. EID tags in the reading zone of the loop antenna can be read using the portable RFID reader via an inductive coupling between the resonant antenna in the portable RFID reader and the ferrite antenna in the stationary antenna assembly. One embodiment of the invention includes a portable reader having reader circuitry configured to generate an activation signal, a first resonant antenna, where the first resonant antenna is electrically connected to the reader circuitry, a reader housing containing the reader circuitry and the first resonant antenna, and a stationary antenna assembly having a resonant antenna unit including a housing and a second resonant antenna, a loop antenna unit including a housing and a loop antenna and an electrical connection between the resonant antenna unit and the loop antenna unit. In addition, the first resonant antenna in the portable reader is inductively coupled to the second resonant antenna in the stationary antenna assembly.
H01Q 7/00 - Loop antennas with a substantially uniform current distribution around the loop and having a directional radiation pattern in a plane perpendicular to the plane of the loop
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